@evostars these Avramenko plugs are very interesting: https://www.youtube.com/watch?v=IyqghssMuTA

@evostars this new computer animated representation + paper are very interesting in showing the motion of the ether in relation to electric flow on a wire: https://www.youtube.com/watch?v=QNljz6fl2u4


Notice his paper: https://vixra.org/pdf/2007.0204v3.pdf

The electrostatic phenomena of attractions and repulsions are attributed to the vibrations of the various elements and to the acoustic fields they produce in the surrounding aether.
The electrigen is conceived as covering the atoms of elements and clinging to them due to the external aether pressure. It evaporates when substances are heated in vacuum, while in chemical reactions it is transferred from one substance to another. In a voltaic cell for example, it is accumulated on the dissolving electrode in an excited state of vibration, and produces a diffusion wave through a wire when one is connected between the two electrodes of the cell.
The electric current is thus a diffusion wave of electrigen that acts mechanically on the surrounding aether at the common interface between the two and produces surface waves in it. The circular motion of aether particles which results constitute the magnetic field observed around a current-carrying wire. This view has further implications on the tenability of Ampere’s formula for electric current elements as well as on our conception of the magnetic field, which will be explored in a future work.
A detailed animation depicting the action of the electrigen diffusion wave on the aether surrounding the wire is in preparation and will be released on YouTube under the title: Aether, Electrigen, and the Magnetic Effect of the Electric Current.
https://vixra.org/pdf/2007.0204v3.pdf

https://www.youtube.com/watch?v=CBY7hteMAtg


The New Jerusalem Diagram
https://www.facebook.com/permalink.php?story_fbid=879625945777464&id=100011901996265

SOURCE
https://www.facebook.com/permalink.php?story_fbid=879976955742363&id=100011901996265

@evostars this new video, which is a model of an ideal magnet, reminds me of your own pancake coil experiments:

https://www.youtube.com/watch?v=dVSau_GpzuQ

Hi Evo
I watched your latest video on ground currents.  You mentioned a couple of things that got me thinking. First, you talked about the surface areas of the capacitor plates of a different size. This reminded me of anti-gravity/propulsion that is achieved when a high voltage is applied to what is essentially a capacitor of different plate size anti-gravity/propulsion is achieved.  Search YouTube about MHD.  I suspect ion propulsion doesn’t explain the phenomenon associated with the dielectric field produced between plates of a different surface area.  Secondly, you mentioned that LENZ’s law does not apply.  What will the /counter part to LENZ’s law be for dielectric induction.  It got me thinking of what a dielectric electricity generator would look like

Evo, I posted twice on your YT channel, but the comments disappear.
Have you seen this method to adjust the inductance on a coil?
Maybe it could help some of your tuning, just a guess.  :)
https://www.researchgate.net/figure/Schematic-diagram-of-the-BDFO-ring-inductor_fig2_258261268

Regarding your PMBO schematic, it won't work as the left fet turns on, the current crosses over and the right diode conducts.
Maybe add diodes in the cross paths?
Thoughts?

I think I have a better one, what you think?
You can see the moment the fet is switched off, the cemf gets applied to the 2nd coil, both ways.

welp, I disagree it wont work, haha
Yes, there is inductance that will resist the cemf, but there is nowhere else it can go, it cant shoot its voltage up like an open circuit would do.
here is a simple ind and fet, nothing else, the cemf shoots up till the fet breaks down at ~30v (blue trace), you can see the coils current discharge through the fet for the fet avalanche duration (green trace), red trace is gate.

In the second picture I have both fets running and the diodes installed.
red gate,
Blue drain,
green ind current,
yellow 2nd inductor current.

In the 3rd picture, I moved the yellow current probe to the diode connecting to fet1 drain diode, showing the current transfering to the 2nd ind.

I think I need better control of the gate freq and delay turning on the fets to allow the ind energy to transfer to the other ind before turning on the next fet.

Thoughts

Thanks Oz,
but got my mind focussed on other stuff,
so no Thoughts on this right now